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ویرایش: 2nd ed. 2021 نویسندگان: Ivor Fleck (editor), Maxim Titov (editor), Claus Grupen (editor), Irène Buvat (editor) سری: Springer Reference ISBN (شابک) : 3319937847, 9783319937847 ناشر: Springer سال نشر: 2021 تعداد صفحات: 1620 زبان: English فرمت فایل : PDF (درصورت درخواست کاربر به PDF، EPUB یا AZW3 تبدیل می شود) حجم فایل: 54 مگابایت
در صورت تبدیل فایل کتاب Handbook of Particle Detection and Imaging به فرمت های PDF، EPUB، AZW3، MOBI و یا DJVU می توانید به پشتیبان اطلاع دهید تا فایل مورد نظر را تبدیل نمایند.
توجه داشته باشید کتاب راهنمای تشخیص ذرات و تصویربرداری نسخه زبان اصلی می باشد و کتاب ترجمه شده به فارسی نمی باشد. وبسایت اینترنشنال لایبرری ارائه دهنده کتاب های زبان اصلی می باشد و هیچ گونه کتاب ترجمه شده یا نوشته شده به فارسی را ارائه نمی دهد.
این کتاب اصول بنیادی برهمکنش ذرات با ماده و اکثر انواع آشکارسازهای مورد استفاده در بسیاری از زمینههای فیزیک، از فیزیک ذرات، فیزیک هستهای تا آزمایشهای اخیر برای فیزیک حالت جامد را پوشش میدهد.
در این ویرایش دوم، فصلها بهروزرسانی میشوند تا جدیدترین پیشرفتها در فیزیک آشکارساز را شامل شود و فصلهای اضافی در مورد انواع جدید آشکارسازها، مانند فتومولتیپلایرهای سیلیکونی، اضافه شدهاند. علاوه بر این، بخش مربوط به کاربردهای پزشکی گسترش یافته است. تمامی انواع آشکارسازهای اصلی به تفصیل توسط کارشناسان برجسته در این زمینه ها شرح داده شده است. همچنین بینش عمیقی در مورد بسیاری از کاربردها از امنیت داخلی در برابر محافظت در برابر تشعشع تا یک بخش کامل در مورد فیزیک پزشکی با تاکید زیادی بر پزشکی هسته ای می دهد. این کتاب برای دستیابی به دانش عمیق در زمینه فیزیک آشکارساز و تصویربرداری مناسب است. همچنین می تواند به عنوان یک کتاب مرجع برای جستجوی اصول کار یک نوع آشکارساز معین و دریافت نمای کلی از کاربردهای پیشرفته انواع آشکارساز استفاده شود. همچنین برای پزشکان پزشکی هسته ای و رادیولوژی مفید است زیرا همه انواع آشکارسازها در این زمینه و اصول اولیه کار این آشکارسازها را خلاصه می کند. حوزه پرتودرمانی نیز با در نظر گرفتن آخرین تحولات به تفصیل پوشش داده شده است.This handbook covers the fundamental principles of interactions of particles with matter and of most types of detectors used in many fields of physics, starting from particle physics, nuclear physics up to recent experiments for solid state physics.
In this second edition chapters are updated to include the most recent developments in detector physics and additional chapters on new types of detectors, like silicon photomultipliers, have been added. In addition the section about medical applications has been extended. All major detector types are described in detail by leading experts in these fields. It also gives deep insight into many applications from homeland security over radiation protection to a whole section about medical physics with strong emphasis on nuclear medicine. The book is suited to achieve a deep knowledge in the field of detector physics and imaging. It can also be used as a reference book to look up the working principles of a given detector type and to get an overview of state-of-the-art applications of the various detector types. It is also helpful for practitioners in nuclear medicine and radiology as it summarizes all detector types in this field and the basic working principles of these detectors. The area of radiation therapy is also covered in detail taking into account the most recent developments.Foreword Preface to the Second Edition Preface to the First Edition Contents About the Editors Contributors Part I Basic Principles of Detectors and Accelerators 1 Interactions of Particles and Radiation with Matter Contents Introduction Penetration of Charged Particles Through Matter Energy and Angular Spectra of Delta-Electrons Energy Loss by Ionization and Excitation Fluctuations of Ionization Losses Multiple Scattering of Charged Particles Channeling Radiation Losses, Radiation Length, and Critical Energy Charged Particle Range Due to Ionization Losses Cherenkov and Transition Radiation Penetration of High Energy Photons in Matter Photoelectric Effect Compton Effect Production of Electron-Positron Pairs Photon Flux Attenuation by Material Electron-Photon Cascades Nuclear Interactions of Hadrons with Matter Neutrino Interactions with Matter Conclusion and Further Reading References 2 Electronics Part I Contents Why Understand Electronics? Detector Types Signal Fluctuations Signal Formation Electronic Noise Electronic Noise Levels Noise in Amplifiers Noise Versus Dynamic Range Signal Charge Measurements Charge-Sensitive Amplifiers Noise in a Charge-Sensitive Amplifier System Realistic Charge-Sensitive Amplifiers Detector Equivalent Circuits Thermistor Detecting IR Radiation Piezoelectric Transducer Ionization Chamber Position-Sensitive Detector with Resistive Charge Division Summary References 3 Electronics Part II Contents Basic Principles of Signal Processing Signal Processing Noise Analysis of a Detector–Preamplifier–Shaper System Timing Measurements Digital Electronics Logic Elements Propagation Delays and Power Dissipation Logic Arrays Analog-to-Digital Conversion Time-to-Digital Converters (TDCs) Digital Signal Processing Summary References 4 Data Analysis Contents Introduction From Raw Data to Physics Objects Basics of Track Finding Energy Reconstruction in Calorimeters The Particle Flow Approach Jet Algorithms Further Higher-Level Algorithms Simulations Examples from e+e- and Hadron Colliders Ratio of the Hadronic and Leptonic Cross Sections in e+e- Annihilations Jet Production in Hadron Collisions Applications of Modern Machine Learning Techniques Computing and Software Aspects Summary Further Reading Cross-References References 5 Statistics Contents Introduction Probability Random Variables Parameter Estimation Estimators for Mean, Variance, and Median The Method of Maximum Likelihood The Method of Least Squares The Bayesian Approach Statistical Tests Hypothesis Tests Significance Tests Bayesian Model Selection Intervals and Limits Bayesian Intervals Frequentist Confidence Intervals Profile Likelihood and Treatment of Nuisance Parameters Gaussian-Distributed Measurements Poisson or Binomial Data Conclusions References 6 Particle Identification Contents Introduction Radiation by Charged Particles Particle Identification in Calorimeters Time of Flight (ToF) Specific Energy Loss dE/dx Transition Radiation Detectors (TRD) Cherenkov Radiation Threshold Cherenkov Detectors Ring Imaging Muon Identification Neutrinos Conclusions Cross-References References 7 Accelerators for Particle Physics Contents Introduction Basic Concepts and Units Magnet Lattice Dispersion and Chromaticity Sources and Pre-injectors RF Acceleration Ring Accelerators Phase Stability Applications of Accelerators Fixed-Target Accelerators and Colliders Energy and Luminosity Vacuum and Beam Lifetime Synchrotron Radiation The Highest Energies Conclusion Cross-References References 8 Accelerator-Based Photon Sources Contents A Brief History of Radiation Sources Generation of Synchrotron Radiation Radiation from Accelerated Electrons Acceleration of Electrons to Ultrarelativistic Energies Conventional Electron Linacs Superconducting Linacs and Energy Recovery Synchrotrons Electron Storage Rings Electron Beam Optics Radiation Effects Insertion Devices Wavelength Shifters and Superbends Wigglers and Undulators Synchrotron Radiation Sources Worldwide Applications of Synchrotron Radiation Diffraction Spectroscopy Imaging Other Applications Time-Resolved Studies Far-Infrared Radiation X-Ray Holography Metrology X-Ray Lithography The New Generation Storage Rings Linac-Based Free-Electron Lasers Energy Recovery Linacs Conclusions Cross-References References Further Reading 9 Calibration of Radioactive Sources Contents Introduction Radioactive Decay Alpha Decay Beta- Decay Beta+ Decay Electron Capture Gamma Decay Internal Conversion (IC) Activity Standards Decay Counting Methods for Primary Activity Standardization Other Methods for Primary Activity Standardization Secondary Methods for the Calibration of Activity Standards International Comparability of Activity Standards Conclusions References 10 Radiation Protection Contents Introduction Units of Radiation Protection Basic Nuclear Physics Basic Interactions Range of Particles Radiation Sources Particle Radiation Photon Sources Neutron Sources Cosmic-Ray Sources Radiation Detectors Safety Standards Organization of Radiation Protection Environmental Radiation Biological Effects of Radiation Applications of Radiation Medical Applications Metabolism of Plutonium Radiation-Resistant Organisms Waste Transmutation Conclusions Cross-References References Further Reading Suppliers of Radiation-Protection Equipment Part II Specific Types of Detectors 11 Gaseous Detectors Contents Introduction Basic Principles: Ionization, Transport Phenomena and Avalanche Multiplication The Multi-Wire Proportional, Drift, and Time Projection Chambers Micro-Pattern Gaseous Detectors Micro-Pattern Gaseous Detector Applications Overview of the CERN-RD51 Collaboration Future R&D Program for Advanced MPGD Concepts Summary and Outlook Cross-References Bibliography 12 Tracking Detectors Contents Introduction Gaseous Detectors Wire Chambers Micro-pattern Gas Detectors Time Projection Chambers Silicon Detectors Silicon Strip Detectors Hybrid Pixel Detectors Other Tracking Detectors Integration in Experiments Fixed-Target Experiments Collider Experiments Detector Alignment Event Reconstruction Pattern Recognition Track Fitting Vertex Reconstruction Performance Optimization Summary Acknowledgments Appendix: Formulae Kalman Track Fitting Kalman Vertex Fitting Robust Vertex Fitting Helix Tracking Coordinates Cross-References References Further Reading 13 Photon Detectors Contents Introduction General Properties of Photon Detectors Vacuum Photodetectors Photomultiplier Tubes Microchannel Plate Photomultiplier Tube Hybrid Photodetectors Gaseous Photon Detectors Solid-State Photon Detectors Conclusion References 14 Neutrino Detectors Contents Introduction Overview of Neutrino Sources Important Neutrino Properties Reactor Antineutrino Experiments The Reines-Cowan Experiment: Discovery of the Neutrino Discovery of Long-Baseline Oscillations in KamLAND The Hunt for the Mixing Angle θ13: Double-Chooz Very Short-Baseline Searches for Sterile Neutrinos: PROSPECT Solar Neutrino Experiments Early Radiochemical Experiments Discovery of Solar Neutrinos in the Homestake Experiment The Gallium Experiments and the Solar Neutrino Problem Pointing at the Sun: Kamiokande Neutrino Flavor-Resolved Detection in SNO Solar Neutrino Spectroscopy with Borexino Atmospheric and Accelerator Neutrino Experiments Atmospheric Neutrinos in Super-Kamiokande Search for ντ Appearance in OPERA A First Glimpse at Leptonic CP Violation in NOvA Neutrino Telescopes First Glimpse at Cosmic Neutrinos with IceCube Conclusions Cross-References References 15 Scintillators and Scintillation Detectors Contents Introduction Characteristics of Scintillators Interaction of Radiation with Scintillators Processes Governing the Generation and Decay of Light Pulses Resolution Considerations in Matching Scintillators to Photosensors Scintillators Inorganic Crystals Organic Scintillators Conclusion Cross-References References 16 Semiconductor Radiation Detectors Contents Introduction Definitions Energy Band Gap Charge Carrier Concentration Dopant Impurities Carrier Mobility Carrier Lifetime Material Resistivity Basic Detector Configurations pn Junction pin Junction Devices Schottky Devices Ohmic Contacts Resistive Devices Photoconductive Devices Operation Gamma-Ray and X-Ray Spectrometers X-ray Detectors Based Upon Si Basic Design Detectors Based Upon Ge Various Designs Compound Semiconductor Detectors CdTe CdZnTe HgI2 Charged Particle Detectors Surface Barrier and Implanted Junction Detectors Neutron Detectors Summary Cross-References References Further Reading Semiconductor Radiation Detector Suppliers 17 Silicon Photomultipliers Contents Introduction Applications Properties of SiPMs SiPM Design and Static Parameters Doping Profile Static Parameters SiPM Response Signal Formation Gain Response to Low Light Intensity Non-linear Response and Dynamic Range SiPM Performance Photo-detection Efficiency Single-Photon Time Resolution Noise Dark Count Rate Correlated Noise Radiation Damage Conclusion Cross-References References 18 Gamma-Ray Spectroscopy Contents Introduction Basic Concepts Detector Response Models Gamma-Ray Spectroscopy Gamma-Ray and x Ray Spectral Features Photoelectric Effect Features Compton Scattering Features Backscatter Features Pair Production Features Fluorescent X Ray Features Summary Spectral Response Function Qualitative Analysis Quantitative Analysis Area Under an Isolated Peak Model Fitting General Linear Least-Squares Model Fitting Nonlinear Least-Squares Model Fitting Isolated Peaks Overlapping Peaks Spectrum Stripping Library Least-Squares Nonlinear Spectra Symbolic Monte Carlo Compton Suppression More About Spectroscopy Measurements Channel Calibration Spectroscopy Quality Metrics Detection Efficiency Total Intrinsic Detection Efficiency Intrinsic Peak Efficiency Escape Peak Efficiency Energy Resolution Peak-to-Compton Ratio Peak-to-Valley Ratio Peak-to-Total Ratio Detectors for Gamma-Ray Spectroscopy Scintillation Spectrometers Inorganic Scintillators NaI(Tl) Scintillation Detectors Other Inorganic Scintillation Detectors Light Collection Photomultiplier Tubes Microchannel Plates Photodiodes Silicon Photomultipliers Factors Affecting Energy Resolution Semiconductor Spectrometers Ge Detectors Si Detectors Compound Semiconductor Detectors HgI2, CdTe, and CdZnTe Detectors Factors Affecting Energy Resolution Cryogenic Spectrometers (Microcalorimeters) Crystal Diffractometers (Wavelength-Dispersive Spectroscopy) Summary Cross-References References Further Reading Radiation Spectrometer Suppliers 19 Cherenkov Radiation Contents Introduction Basic Cherenkov Theory Cherenkov Counters Cherenkov Counter Components: Radiators Cherenkov Counter Components: Detectors Counter Types Threshold Counters Imaging Counters Examples of Cherenkov Counters Accelerator-Based Particle Identification Detectors Threshold Cherenkov Counters Imaging Cherenkov Counters: RICH Astroparticle Physics Underground Neutrino Detectors Neutrino Detectors in Natural Water or Ice High Energy Cosmic Ray Shower Detection with Cherenkov Light Conclusions Cross-References References 20 Muon Spectrometers Contents Introduction General Considerations Magnetic Spectrometers Magnets Tracking Detectors Muon Detectors at Accelerator-Based Experiments Drift-Tube Detectors Resistive-Plate Chambers (RPC) Multi-Wire Chambers Muon Spectrometers for Cosmic Ray Measurements Atmospheric Muon Detectors Air Shower Detector Arrays Muon Radiography Conclusions References 21 Calorimeters Contents Introduction Basic Principles of Particle Interaction Interaction of e, μ, and Photons Interaction of Hadrons with Matter Particle Showers Electromagnetic Cascades Hadronic Cascades Calorimetric Measurements: Response, Resolution, and Additional Capabilities Response Energy Resolution Additional Capabilities Calorimeter Types Calorimeter Concepts and Design Electromagnetic Calorimeters Hadronic Calorimeters The Role of Simulations Conceptual Refinements Dual Readout High Granularity and Particle Flow Particle Flow Approach High Granularity Selected Other Calorimeter Types Concluding Remark Cross-References References 22 New Solid State Detectors Contents Introduction Radiation Environment at Contemporary Hadron Accelerators Artificial Diamond as a Sensor Material Chemical Vapor Deposition (CVD) Diamond Production of Artificial Diamond Diamonds as Solid State Detectors Charge Collection in Polycrystalline CVD Diamonds Radiation Effects The Beam Conditions Monitor of the LHCb Experiment: An Application Example Cadmium Telluride and Cadmium Zinc Telluride as Sensor Materials New Passive Thermoluminescence Detectors Conclusions Cross-References References 23 Radiation Damage Effects Contents Introduction Scintillation Mechanism Damage Radiation-Induced Phosphorescence and Energy Equivalent Readout Noise Radiation-Induced Absorption Recovery of Radiation-Induced Absorption Radiation-Induced Color Centers Dose Rate Dependence and Color Center Kinetics Light Output Degradation Ionization Dose–Induced Radiation Damage Proton-Induced Radiation Damage Neutron-Induced Radiation Damage Light Response Uniformity Damage Mechanism in Alkali Halide Crystals and CsI:Tl Development Damage Mechanism in Oxide Crystals and PWO Development Conclusion Cross-References References 24 Complementary Metal-Oxide-Semiconductor (CMOS) Pixel Sensors Contents Introduction Technology of CPS A Brief Introduction into the CMOS Technology The Sensing Element of CMOS Sensors Signal Processing On-Pixel Signal Amplification Signal Encoding Noise and Noise Optimization Readout Approaches The Rolling-Shutter Readout Scheme Column Parallel Rolling Shutter Asynchronous Readout Sensor Performances Response to Photons Response to Charged Particles Performances of CPS Device Modeling Radiation Tolerance Ionizing Radiation Damage in CPS Non-ionizing Radiation Damage in CPS Random Telegraph Signal and Hot Pixels Vertex Detectors Based on CPS Role of Vertex Detectors Technology and Integration of Vertex Detectors Based on CPS Summary and Perspectives Cross-References References Part III Applications of Detectors in Particle and Astroparticle Physics, Security, Environment, and Art 25 Astrophysics and Space Instrumentation Contents Introduction Photon Instruments X-Ray Calorimeters Grazing Incidence Optics Coded Aperture Masks Pair Conversion Cosmic-Ray Instruments Time-of-Flight Versus Energy Measurements dE/dx Versus Total Energy Magnetic Rigidity Spectrometers Calorimeters Large-Area Composition Experiments Indirect Measurements Conclusion Cross-References References 26 Indirect Detection of Cosmic Rays Contents Introduction Phenomenology of Extensive Air Showers Photon-Induced Showers Hadron-Induced Showers Neutrino-Induced Showers Measurement Techniques and Observables Particle Detector Arrays Atmospheric Cherenkov Light Detectors Fluorescence Telescopes Radio Signal Detection Examples of Air Shower Detectors KASCADE HAWC Tunka H.E.S.S. The Pierre Auger Observatory Open Problems and Future Experiments Conclusion Acknowledgements References Further Reading 27 Gravitational Wave Detectors Contents Introduction The Experimental Challenges Searching for Gravitational Waves – Resonant Bars Searching for Gravitational Waves: Interferometric Detectors – The Idea Long Baseline Suspended Mass Interferometers The LIGO Interferometers The Virgo Interferometer Advanced LIGO and Virgo The Detection of Gravitational Waves: The First Event Future Ground-Based Detectors Gravitational Waves in Space and Pulsar Timing Array References 28 Technology for Border Security Contents Introduction Components of Security Systems Passenger Portals Passive Passenger Portals Active Mm-Wave Passenger Portal Technology Active Devices: Metal Detectors Active Devices: X-Ray Passenger Portals Active Devices: Liquid and Bottle Scanners X-Ray Baggage, Pallet, and Container Systems X-Ray Baggage, Pallet, and Container Systems: Gray Scale Images X-Ray Baggage, Pallet, and Container Systems: Materials Discrimination X-Ray Baggage, Pallet, and Container Systems: Materials Discrimination: Diffraction Systems Examples The Performance of X-Ray Baggage Systems X-Ray Pallet and Air Cargo Systems X-Ray Shipping Container Examination Systems X-Ray and Neutron Examination System Ancillary Technologies Protocols: Passenger, Air Cargo/Pallet, Shipping Containers Conclusions References 29 Radiation Detection Technology for Homeland Security Contents Introduction Threat Detection Radiation Sources Background Radiation Sources Radioactive Materials in Commerce Medical Radioisotopes Industrial Radiation Sources Special Nuclear Materials Electromagnetic Interference Effects Radiation Detection Mechanisms Gamma-Ray Detection Neutron Detection Radiation Detection Standards US Standards International Standards and Specifications Radiation Interdiction Approach Radiation Detection for Interdiction Instrumentation Options Options Considered for Scanning at Mail and Package Facilities Options for Land Borders Options for Airports Options for Seaports Instruments and Capabilities Radiation Portal Monitor Systems Small Detection Systems Imaging Systems Muon Scatter Systems Active Interrogation Techniques Induced Fission Active Interrogation Nuclear Resonance Florescence Active Interrogation Implementation Challenges to Radiological Interdiction Conclusions Cross-References References 30 Accelerator Mass Spectrometry and Its Applications in Archaeology, Geology, and Environmental Research Contents Introduction The Methodology of Accelerator Mass Spectrometry Typical AMS Setup Determination of Calendar Age Sample Preparation Pretreatment of Sediment Samples Pretreatment of Bones Pretreatment of Archaeological Samples Combustion to CO2 and Reduction to Carbon Applications of Radiocarbon Measurements to Interdisciplinary Research Sediment Dating Environmental Studies Archaeological Samples Concluding Remarks References 31 Geoscientific Applications of Particle Detection and Imaging Techniques with Special Focus on Monitoring Clay Mineral Reactions Contents Introduction Characterization of Clay Minerals Reactions Application of Electron- and Focused-Ion-Beam Microscopy Applications to the Disposal of Nuclear Waste: Reactions in Bentonites X-Ray Diffraction Study of Bentonite Hydration Under Conditions of Varying Humidity Environmental Scanning Electron Microscopy Wet-Cell X-Ray Diffractometry Applications to the Storage of CO2: Reactions in Shales and Sandstones Three-Dimensional Reconstruction Using Combined Ion- and Electron-Beam Microscopy Conclusions and Outlook Cross-References Analytical Equipment Used in this Study References 32 Particle Detectors Used in Isotope Ratio Mass Spectrometry, with Applications in Geology, Environmental Science, and Nuclear Forensics Contents Introduction Isotope Ratio Mass Spectrometry Ion Sources Mass Analyzers Detectors Faraday Cups and Amplifiers Secondary Electron Multipliers The Daly Detector Energy Filters and Abundance Sensitivity Applications U–Pb Dating of Zircons by LA-MC-ICP-MS and ID-TIMS Depleted Uranium in Urine Nuclear Forensic Science Conclusions Cross-References References 33 Particle Detectors in Materials Science Contents Introduction Detector Application in Materials Science The Low-Temperature Synthesis of Diamond Films Structure Characterization: SEM, TEM, XRD, and Raman Properties/Applications: Electron Field Emission Material Development for Particle Detection Conclusions Cross-References References 34 Spallation: Neutrons Beyond Nuclear Fission Contents Introduction: Fission Versus Spallation The Fission Reactor Source Strength S Early Reactor Development Technical Limitations Neutron Sources: Why Not Pulsed? The Two Essentials in Neutron Scattering: Single-Crystal and Time-of-Flight Techniques Pulsed Reactors or What Else? Spallation: The Future for Rapidly Pulsed Neutron Sources The Spallation Reaction Total Neutron Yield Spectral Distribution Source Distribution, Proton Mean Free Path, and Range Heat Deposition Technical Details of a Pulsed Spallation Source The Accelerator Choice of Proton Energy Proton-Current Requirements: A Source-Strength Estimate The Target: Solid or Liquid? The Moderators Peak and Time-Average Neutron Flux Numerical Example Moderator Requirements Moderator Tailoring Examples of Spallation Sources The US Spallation Neutron Source SNS The Components of the Accelerator Ion Source and Linac Accumulator (Compressor) Ring Target Building The European Spallation Source (ESS) Experimental Methods at Spallation Neutron Sources Epithermal Neutrons: An Important Reason for Ultra-Short ProtonPulses Spectroscopy at High Energy Transfers Powder Diffractometry at Pulsed Sources Neutron Powder Diffractometry in the History of Arts Neutron Radiography Spallation: Accelerator-Driven Nuclear Energy ADS Research and Development: The Belgian MYRRHA Project The Accelerator The Target The Subcritical Core Energy Amplifier Nuclear Waste Incineration Conclusions Cross-References References 35 Neutron Detection Contents Introduction Fundamental Neutron Physics The Neutron Basic Neutron Interactions Neutron Generation Neutron Moderation Neutron Absorption and Shielding Metrology and Dosimetric Quantities Materials and Detector Types for Neutron Detection Neutron Detection Principles Active Neutron Detection Methods Gas-Filled Detectors Semiconductors Scintillators Superheated Emulsion Detectors Passive Neutron Detection Methods Track Detectors Thermoluminescent Dosimeters Etched-Track Detectors Passive Superheated Emulsion Detectors Direct Ion Storage Other Passive Detectors Applications of Neutron Detection Neutron Dose Measurement Introduction Rem Counters Tissue-Equivalent Proportional Counters Active Personal Dosimeters Passive Dose Measurement Dose Measurement in Pulsed Radiation Fields Examples of Neutron Dose Measurements Spectrometry General Bonner Spheres Time-of-Flight Spectroscopy Recoil Spectroscopy Neutron Activation Analysis Neutron Scattering Nuclear Medicine Search for Illicit Trafficking Nuclear Materials Reactor Instrumentation Fusion Monitoring Industrial Applications Neutron Imaging and Radiography Humidity Measurement Reference Neutron Radiation Fields Conclusion References 36 Instrumentation for Nuclear Fusion Contents Introduction Basic Nuclear Fusion Diagnostic of Fusion Plasma Radiation Measurements Thermography Continuum Radiation Bolometry Soft-X-Ray Diagnostic Line Radiation Passive Spectroscopy Charge-Exchange Spectroscopy γ-Spectroscopy Particle Measurements Charge-Exchange Neutrals Neutron-Rate Measurements Neutron Spectroscopy Charged-Particle-Loss Diagnostic Special Requirements for ITER and Burning-Plasma Devices Spectroscopic Systems and Bolometry Fusion Products Conclusions and Outlook Cross-References References 37 Use of Neutron Technology in Archaeological and Cultural Heritage Research Contents Introduction Technology Neutron Sources Detectors Neutron Interactions and Neutron Scattering Techniques Coherent Neutron Scattering Small-Angle Neutron Scattering (SANS) Neutron Reflectometry and Grazing-Incidence Diffraction (GID) Neutron Diffraction Incoherent Scattering: Neutron Activation Analysis (NAA) Total Neutron Scattering: Imaging Two-Dimensional Imaging Three-Dimensional Imaging: Computed Tomography (CT) Selected Applications Conclusions Cross-References References 38 Radiation Detectors and Art Contents Introduction and Motivation Proton Induced X-Ray Emission: PIXE Basic Principles High-Energy PIXE PIGE Application to Art Objects Experimental Setup for Art Objects Examples Paintings Flemish Painting Modigliani Portrait Metals Silver Coins: Wiener Pfennig Gold Scarab Conclusions Cross-References References Part IV Applications of Particle Detectors in Medicine 39 Radiation-Based Medical Imaging Techniques: An Overview Contents Introduction Nuclear Medicine and Molecular Imaging Sensitivity Versus Resolution in Imaging SPECT Versus PET Single-Photon Emission Computed Tomography (SPECT) Conventional Gamma Camera and SPECT SPECT/CT Dedicated SPECT Systems Ultrafast Dedicated Cardiac Camera Breast Imaging with SPECT/CT Single-Pinhole and Coded Aperture Collimation Systems SPECT/MR Other Detector Types Positron Emission Tomography Standalone PET Imaging Sensitivity Resolution Quantitative Imaging Hybrid/Multimodality PET Imaging The Success Story of PET/CT Time-of-Flight (TOF) PET From PET/CT to PET/MR Dedicated PET Imaging Devices PET Mammography (PEM) Endoscopic PET Imaging Other PET Detectors Radiopharmaceuticals SPECT Radiopharmaceuticals PET Radiopharmaceuticals Theragnostic Radiopharmaceuticals Preclinical Imaging Conclusions Cross-References References 40 CT Imaging: Basics and New Trends Contents Introduction Principles of X-Ray CT Physics of X-ray CT Data Acquisition Basics of Image Reconstruction Image Quality and Artifacts Iterative Reconstruction Methods Historical and Current Concepts of CT Technology Translation-Rotation CT: First and Second Generations Fan-Beam CT: Third and Fourth Generations Spiral or Helical CT Multi- slice CT (MSCT) New Developments in CT Technology and Applications CBCT (Cone-Beam Computed Tomography) Selected Examples of Quantitative CT (QCT) Dual-Energy CT Spectral Photon-Counting CT (SPC-CT) Radiation Exposure Measurement of Radiation Exposure in CT Reduction of Radiation Exposure From Clinical CT to Nano-CT Micro-CT Using X-Ray Tubes Synchrotron Radiation Micro- and Nano-CT Conclusion Cross-References References 41 SPECT Imaging: Basics and New Trends Contents Introduction The Anger Gamma Camera: Design and Performance System Components Detector Characteristics Collimator Design Performance Parameters Spatial Resolution Energy Resolution Sensitivity Dead Time and Count Rate Capability Uniformity Conventional SPECT System Design and Performance Basic System Design SPECT Performance Factors Affecting SPECT Quantification Instrument Effects: Resolution and Noise Physical Effects: Attenuation and Scatter Changes of Observed Activity Distribution in Time: Motion and Tracer Kinetics New Trends in SPECT Novel Collimators Organ-Specific Systems Dual-Modality SPECT Conclusions Cross-References References 42 PET Imaging: Basic and New Trends Contents Introduction Physics Photon Interactions Photoelectric Interactions Compton Interactions Attenuation Coefficients Relevance to PET Detectors The Block Detector Coincidence Detection Event Types Scattered Coincidences Accidental Coincidences Multiple Coincidences Prompt Coincidences Noise Equivalent Counts Resolution Limitations Data Collection, 2-D and 3-D PET Data Corrections Normalization Attenuation Correction Scatter Correction System Calibration and Quantification Partial Volume Effect Image Reconstruction Filtered Backprojection Iterative Reconstruction Time-of-Flight PET Multi-modality Imaging PET-CT PET-MRI Dedicated Systems Animal and Preclinical PET System Organ Specific PET Systems Brain Imaging Breast Imaging Prostate Imaging Summary Cross-References References 43 Image Reconstruction Contents Introduction Analytical Reconstruction Algorithms Scanning and Reconstruction Geometry Ray and Radon Transforms 2D Analytical Reconstruction The 2D Parallel-Ray Transform and Its Dual Parallel-Beam Filtered Backprojection Discretization Ill-Posedness Fan-Beam Filtered Backprojection Flat Detector Curved Detector Short-Scan Helical Fan-Beam 3D Analytical Reconstruction Parallel Beam Geometry for 3D PET Systems The Reprojection Algorithm Rebinning Techniques Cone-Beam Reconstruction The Feldkamp, Davis and Kreiss Algorithm Exact Reconstruction Algorithms Iterative Reconstruction Algorithms Scanning Model Objective Function and Minimization Algorithm The EM-ML Algorithm in Emission Tomography ML Algorithms in Transmission Tomography Regularization Early Termination Post-reconstruction Smoothing Penalized Objective Function or MAP Reconstruction Conclusive Remarks Cross-References References 44 Multi Imaging Devices: PET/MRI Contents Introduction Why PET/MRI? Mutual Interferences Between PET and MRI Sequential PET/MRI Simultaneous PET/MRI: PMT-Based PET/MRI Preclinical PET/MRI with Optical Fiber Bundle and PMT Simultaneous PET/MRI: APD-Based PET/MRI APDs for MR-Compatible PET Detectors Preclinical PET/MRI with APDs Brain PET/MRI with APDs Whole-Body PET/MRI with APDs Simultaneous PET/MRI: SiPM-Based PET/MRI SiPMs for MR-Compatible PET Detectors Preclinical PET/MRI with SiPMs Brain PET/MRI with SiPMs Whole-Body PET/MRI with SiPMs Conclusions Cross-References References 45 Motion Compensation in Emission Tomography Contents Introduction Different Types of Motion and Their Effects Periodic Motion Irregular Motion Rigid Motion Nonrigid Motion Motion Detection Internal Motion Detection External Motion Detection Phase-Sensitive Motion Sensors Marker-Based Motion Sensors Motion Correction Image-Based Techniques Image Registration Optical Flow Multiple Acquisition Framing Image Deblurring Approaches Correction of Breathing-Related Motion Projection-Based Techniques Event-Based Techniques Pre-correction of List Mode Data Incorporation of Motion Correction into the Image Reconstruction Process Current Trends Compensation of Rigid Brain Motion in PET Imaging Compensation of Nonrigid Respiration-Induced Motion Conclusion Cross-References References 46 Quantitative Image Analysis in Tomography Contents Introduction Motivation for Quantitative Image Analysis Steps Required for Quantitative Image Analysis Quantitation from Static Imaging Preprocessing Preprocessing in the Spatial Domain Preprocessing in the Frequency Domain Preprocessing Using Multiscale Methods Measurements Spatial Measurements Intensity Measurements Texture Measurements Quantitation from Dynamic Images Kinetic Modeling Parametric Imaging Conclusion References 47 Compartmental Modeling in Emission Tomography Contents Introduction Compartment Models Single Tissue Compartment Model: Blood Flow Two Tissue Compartment Model: Receptor Studies Reference Tissue Models Weighting Factors Arterial Input Functions Comparison of Fits Parametric Methods Conclusions Cross-References References 48 Evaluation and Image Quality in Radiation-Based Medical Imaging Contents Introduction The Imaging Equation Tasks Classification Tasks Estimation Tasks Combined Tasks Distributions Observers Figures of Merit Ideal Observers Ideal Linear Observers Linear Estimation Tasks Notes on Linear Observers Combination Task Observer Models Discussion Cross-References References 49 Simulation of Medical Imaging Systems: Emission and Transmission Tomography Contents Introduction History of Simulation Statistical Methods for Simulations Random Number Generators Sampling from Probability Density Functions (PDFs) Sampling from the Exponential Function Using the Inversion Method The Acceptance–Rejection Sampling Method Table Lookup Library Functions and Sampling from the Normaland Poisson Distributions Basic Principles and Physics of Medical Imaging Simulation Sources of Photons Nuclear Decay: Source of Photons for Emission Tomography Electromagnetic Radiation: Source of Photons for X-ray CT Secondary Sources of Photons Tracking Photons Through Matter Description of Attenuation Where Will a Photon Interact? What Type of Interaction? Simulating Photoelectric Absorption Simulating Compton Scatter Simulating Coherent Scatter Simulating Pair Production Simulating Detection Tracking Photons in the Detector Crystal Converting Deposited Energy to a Signal Histogramming Simulated Events Acceleration of Photon-Tracking Simulations Available Simulation Software Choosing a Simulation Tool Online Resources (Table 44Tab44) Conclusion Cross-References References 50 High-Resolution and Animal Imaging Instrumentation and Techniques Contents Introduction Small Animal Imaging Key Technologies Present Technology for Small Animal PET Systems Spatial Resolution Considerations in PET Present Technology for Small Animal SPECT Systems Spatial Resolution Considerations in SPECT PET and SPECT Comparison Improvements in Small Animal Instrumentation New Photodetectors New Detector Materials Recent Developments in PET and SPECT Small Animal Systems Small Animal CT Imaging Geometry X-Ray Tubes X-Ray Detectors Image Reconstruction and Geometric Calibration Multimodality Approach PET/CT and SPECT/CT PET/SPECT PET/MR and SPECT/MR Small Animal Systems Other High-Resolution Applications of Radiation Imaging Instrumentation: Breast Cancer Investigation Summary Cross-References References 51 Imaging Instrumentation and Techniques for Precision Radiotherapy Contents Introduction Imaging for Treatment Planning Biological Imaging, Dose Painting Imaging for Image-Guided Radiotherapy Image Guidance in Photon Therapy X-Ray-Based Image Guidance in Ion Therapy Ion-Based Image Guidance in Ion Therapy Ion Radiography Ion Tomography Imaging for Dose-Guided Radiotherapy Dose Reconstruction in Photon Therapy Range Monitoring and Dose Reconstruction in Ion Therapy Conclusion Cross-References References 52 Tumor Therapy with Ion Beams Contents Introduction Physical Basics for Particle Therapy Energy Deposition and Depth–Dose Distribution of Particle Beams Lateral and Longitudinal Scattering Nuclear Fragmentation and PET Verification Clinical Beam Application Systems Passive Beam Spreading Active Beam Delivery Detectors and Quality Assurance Therapy Online Monitors Detectors for Permanent Recording: Films and Nuclear Track Detectors Ionization Chamber Dosimetry Biological Properties of Heavy Ions Relevant for Therapy Definition of RBE and Its Dependence on Dose or Effect Level The RBE Dependencies on Physical and Biological Parameters and the Molecular Understanding The Planning of the Biological Effective Dose Quality Assurance and RBE Detectors Conclusions References Index